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Numerical simulation of torus breakdown to chaos in an atmospheric-pressure dielectric barrier discharge

Release Time:2019-03-09  Hits:

Indexed by: Journal Article

Date of Publication: 2013-08-01

Journal: PHYSICS OF PLASMAS

Included Journals: SCIE

Volume: 20

Issue: 8

ISSN: 1070-664X

Abstract: Understanding the routes to chaos occurring in atmospheric-pressure dielectric barrier discharge systems by changing controlling parameters is very important to predict and control the dynamical behaviors. In this paper, a route of a quasiperiodic torus to chaos via the strange nonchaotic attractor is observed in an atmospheric-pressure dielectric barrier discharge driven by triangle-wave voltage. By increasing the driving frequency, the discharge system first bifurcates to a quasiperiodic torus from a stable single periodic state, and then torus and phase-locking periodic state appear and disappear alternately. In the meantime, the torus becomes increasingly wrinkling and stretching, and gradually approaches a fractal structure with the nonpositive largest Lyapunov exponent, i.e., a strange nonchaotic attractor. After that, the discharge system enters into chaotic state. If the driving frequency is further increased, another well known route of period-doubling bifurcation to chaos is also observed. (C) 2013 AIP Publishing LLC.

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